condensing surface

简明释义

冷凝器

英英释义

例句

1.The steam from the kettle condenses on the condensing surface 冷凝表面 of the lid, forming water droplets.

水壶的蒸汽在盖子的condensing surface 冷凝表面 上凝结，形成水滴。

2.The condensing surface 冷凝表面 in the refrigeration cycle plays a key role in releasing heat.

制冷循环中的condensing surface 冷凝表面 在释放热量方面起着关键作用。

3.The condensing surface 冷凝表面 of the heat exchanger must be kept clean to ensure optimal performance.

热交换器的condensing surface 冷凝表面 必须保持清洁，以确保最佳性能。

4.In HVAC systems, the condensing surface 冷凝表面 is crucial for efficient heat exchange.

在暖通空调系统中，condensing surface 冷凝表面 对于高效的热交换至关重要。

5.When designing a distillation column, engineers pay close attention to the condensing surface 冷凝表面 for effective vapor-liquid separation.

在设计蒸馏塔时，工程师会密切关注condensing surface 冷凝表面 以实现有效的气液分离。

作文

The concept of a condensing surface is fundamental in the study of thermodynamics and heat transfer. A condensing surface refers to any surface where vapor transforms into liquid due to a temperature drop. This phenomenon is crucial in various applications, including refrigeration, air conditioning, and power generation. Understanding how condensing surfaces function can lead to more efficient systems and improved energy conservation. In many industrial processes, the efficiency of heat exchangers heavily relies on the performance of condensing surfaces. For instance, in a typical steam condenser, steam comes into contact with a cooler surface, leading to condensation. The heat released during this phase change is essential for maintaining the cycle in power plants. Engineers strive to enhance the design of these condensing surfaces to maximize heat transfer rates while minimizing energy loss. One interesting aspect of condensing surfaces is the role of surface properties in affecting condensation rates. Smooth surfaces tend to promote film-wise condensation, where a continuous liquid film forms, while rough surfaces can encourage dropwise condensation, which is generally more efficient. Therefore, selecting the right material and surface texture for condensing surfaces can significantly impact overall system performance. Moreover, advancements in nanotechnology have opened new avenues for enhancing condensing surfaces. Researchers are exploring the use of superhydrophobic materials that can repel water and facilitate faster condensation. These innovations could lead to breakthroughs in energy-efficient technologies, particularly in sectors where heat management is critical. In the context of environmental sustainability, improving condensing surfaces contributes to reducing energy consumption and greenhouse gas emissions. As industries strive to meet stricter environmental regulations, optimizing condensing surfaces can play a vital role in achieving these goals. For example, enhancing the efficiency of cooling systems in buildings not only lowers energy costs but also reduces the carbon footprint associated with excessive energy use. In conclusion, the significance of condensing surfaces cannot be overstated. They are integral to numerous engineering applications, impacting both efficiency and sustainability. As technology advances, the potential for improving condensing surfaces continues to expand, promising a future where energy conservation and performance go hand in hand. By understanding and optimizing these surfaces, we can contribute to a more sustainable world while enhancing technological capabilities.

“凝结表面”这一概念在热力学和热传递的研究中至关重要。“凝结表面”指的是任何由于温度下降而使蒸气转变为液体的表面。这一现象在制冷、空调和发电等多个应用中至关重要。理解“凝结表面”的功能可以导致更高效的系统和改善的能源节约。在许多工业过程中，热交换器的效率在很大程度上依赖于“凝结表面”的性能。例如，在典型的蒸汽冷凝器中，蒸汽与较冷的表面接触，导致凝结。在这个相变过程中释放的热量对于维持发电厂中的循环至关重要。工程师们努力提升这些“凝结表面”的设计，以最大化热传递率，同时最小化能量损失。“凝结表面”的一个有趣方面是表面特性对凝结速率的影响。光滑的表面往往促进膜式凝结，即形成连续的液体膜，而粗糙的表面则可以鼓励滴状凝结，后者通常更为高效。因此，为“凝结表面”选择合适的材料和表面纹理可以显著影响整体系统性能。此外，纳米技术的进步为增强“凝结表面”开辟了新的途径。研究人员正在探索使用超疏水材料，这些材料能够排斥水并促进更快的凝结。这些创新可能会在能源高效技术中带来突破，特别是在热管理至关重要的领域。在环境可持续性方面，改善“凝结表面”有助于减少能耗和温室气体排放。随着各行业努力满足更严格的环境法规，优化“凝结表面”在实现这些目标中可以发挥至关重要的作用。例如，提升建筑物冷却系统的效率不仅可以降低能源成本，还可以减少与过度能源使用相关的碳足迹。总之，“凝结表面”的重要性不容忽视。它们是众多工程应用的核心，影响着效率和可持续性。随着技术的进步，改善“凝结表面”的潜力不断扩大，预示着一个能源节约与性能并重的未来。通过理解和优化这些表面，我们可以为更加可持续的世界做出贡献，同时提升技术能力。